All Calculus 2 Resources
Example Questions
Example Question #1 : Initial Conditions
Find the work done by gravity exerting an acceleration of for a block down from its original position with no initial velocity.
Remember that
, where is a force measured in , is work measured in , and and are initial and final positions respectively.
The force of gravity is proportional to the mass of the object and acceleration of the object.
Since the block fell down 5 meters, its final position is and initial position is .
Example Question #1931 : Calculus Ii
The velocity of a car is defined by the equation , where is the time in minutes. What distance (in meters) does the car travel between and ?
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or .
Since , we can use the Power Rule for Integrals
for all ,
to find:
Example Question #11 : Integral Applications
The velocity of a train is defined by the equation , where is the time in seconds What distance (in meters) does the train travel between and ?
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or .
Since , we can use the Power Rule for Integrals
for all ,
to find:
Example Question #13 : Integral Applications
The velocity of a balloon is defined by the equation , where is the time in minutes. What distance (in meters) does the balloon travel between and ?
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or .
Since , we can use the Power Rule for Integrals
for all ,
to find:
Example Question #14 : Integral Applications
A frisbee has a velocity defined by , where we express in seconds. What distance does it travel between in meters?
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or
.
Since
,
we can use the Power Rule for Integrals
for all ,
to find:
Example Question #15 : Integral Applications
A ball has a velocity defined by , where we express in seconds. What distance does it travel between in meters?
None of the above
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or .
Since
, we can use the Power Rule for Integrals
for all ,
to find:
Example Question #11 : Applications In Physics
A subway has a velocity defined by , where we express in seconds. What distance does it travel between in meters?
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or .
Since
,
we can use the Power Rule for Integrals
for all ,
to find:
Example Question #17 : Integral Applications
A train goes a certain distance between (where is time in seconds). If we know that the train's velocity is defined as , what is the distance it travelled (in meters)?
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or .
Since , we can use the Power Rule for Integrals
for all ,
to find:
Example Question #18 : Integral Applications
A car goes a certain distance between (where is time in seconds). If we know that the car's velocity is defined as , what is the distance it travelled (in meters)?
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or .
Since , we can use the Power Rule for Integrals
for all ,
to find:
Example Question #11 : Integral Applications
A plane goes a certain distance between (where is time in seconds). If we know that the plane's velocity is defined as , what is the distance it travelled (in meters)?
We define velocity as the derivative of distance, or .
Thus, in order to find the distance traveled when given the velocity, we'll need to take the definite integral of the velocity function over a specified time period, or .
Since , we can use the Power Rule for Integrals
for all ,
to find: